Abstract:
A method for signaling and call continuity for coverage enhancement may include selecting a cell while a user equipment (UE) device is in a radio resource control (RRC) idle state, determining if a signal level from an evolved NodeB (eNodeB) associated with the cell is sufficient for normal coverage, exchanging data with a network in a normal UE device mode via the cell upon determining that the signal level is sufficient for normal coverage, determining if a signal level from the eNodeB associated with the cell is sufficient for enhanced coverage upon determining that the signal level is not sufficient for normal coverage, and exchanging data with the network in an enhanced UE device mode via the cell upon determining that the signal level is sufficient for enhanced coverage.
Abstract:
A network device receives parameters associated with a usage profile of at least one Internet of Things (IoT) device, where the usage profile specifies a data usage pattern associated with the at least one IoT device transmitting or receiving data via a wireless network. The network device generates a device behavior profile based on the parameters associated with the usage profile, and causes the device behavior profile and an application to be sent to the at least one IoT device, where the application controls the at least one IoT device's transmission or reception via the wireless network using the device behavior profile.
Abstract:
A method, a device, and a non-transitory storage medium provide an eDRX service that may be implemented for idle mode and/or connected mode of an end device. A network device stores eDRX data as a part of subscription data. The network device may provide the eDRX data to another network device that manages eDRX for end devices. The eDRX data may indicate to use global default eDRX timer values, subscriber-based eDRX timer values, ranges of eDRX timer values, and single-valued eDRX timer values. Each type of eDRX timer value may be provisioned on a per end device basis, a per radio access technology type basis, and/or a per application type basis.
Abstract:
A user equipment may determine an initial signal parameter value of a signal received from a base station. The user equipment may determine one or more subsequent signal parameter values corresponding to one or more signals received from the base station. The one or more subsequent signal parameter values may be measured after the initial signal parameter value. The user equipment may calculate a filtered signal parameter value based on the initial signal parameter value and the one or more subsequent signal parameter values. Each signal parameter value, of the one or more subsequent signal parameter values, may be weighted by an amount greater than or equal to a previously measured signal parameter value. The user equipment may provide the filtered signal parameter value in a measurement report.
Abstract:
A device may determine a first signal quality value associated with a wireless signal received by a first antenna of the device, may determine a second signal quality value associated with a wireless signal received by a second antenna of the device, and may determine a combined signal quality value based on the first signal quality value and the second signal quality value. The device may apply an offset value to the first signal quality value to form a modified signal quality value, may compare the combined signal quality value and the modified signal quality value, and may selectively report the modified signal quality value or the combined signal quality value based on comparing the combined signal quality value and the modified signal quality value.
Abstract:
When connected to an alternate network, a user device may search for a preferred network when the user device is actively transmitting traffic via the alternate network. As such, the user device may search for, and potentially locate, the preferred network faster than when the user device waits to search for the preferred network after becoming idle. While active, the user device may search for the preferred network for a relatively short duration, in order to limit the amount of time that data flow transmission is interrupted when searching for the preferred network. The user device may search for the preferred network based on a list of search parameters. The list of search parameters may be prioritized differently based on whether the user device is active or idle, and may be based on a quantity of times that the user device has searched for the preferred network.
Abstract:
A device may receive information from a unified database, wherein the information includes a Service Profile Identifier (SPID); select a Quality-of-Service (QoS)-related identifier (ID) at least based on the SPID; and either map a radio bearer to a flow associated with a User Equipment device (UE) or configure a component to map the radio bearer to the flow. After mapping the radio bearer to the flow, the device may send data from the flow to the UE based on the QoS related ID. After configuring the component, the device may forward the SPID to a second component for sending the data from the flow to the UE based on the QoS-related ID.
Abstract:
A base station device dynamically adjusts the configuration of a special slot when operating in a time division duplexing (TDD) mode. The base station can initially communicate with a user equipment (UE) using a first frequency in a time division duplexing (TDD) mode. Using, for example, a timing advance procedure, the base station can determine when the UE requires an expanded cell range (e.g., if the UE is at the cell range edge). In response, the base station adjusts a configuration of a special slot for the UE. The adjustment to the special slot can comprise an addition of a gap symbol, a prioritizing of uplink transmissions over downlink transmissions, or a reserving of one or more downlink symbols during scheduling.
Abstract:
Systems and methods described herein provide for receiving, by a network device and from a radio access network (RAN) controller, transmission information related to performing an over-the-air (OTA) update campaign, the transmission information identifying a location of a plurality of user equipment (UE) devices that are to receive an OTA update; receiving, by the network device, an OTA update file associated with the OTA update; and transferring, by the network device, the OTA update file to the plurality of UE devices according to the transmission information.
Abstract:
A device may receive information from a unified database, wherein the information includes a Service Profile Identifier (SPID); select a Quality-of-Service (QoS)-related identifier (ID) at least based on the SPID; and either map a radio bearer to a flow associated with a User Equipment device (UE) or configure a component to map the radio bearer to the flow. After mapping the radio bearer to the flow, the device may send data from the flow to the UE based on the QoS related ID. After configuring the component, the device may forward the SPID to a second component for sending the data from the flow to the UE based on the QoS-related ID.